Southeastern Australia, 1834 (Raster Image)

This layer is a georeferenced raster image of the historic paper map entitled: Map of the discoveries in Australia : copied from the latest M.S. surveys in the Colonial Office, by permission dedicated to the Right Hon.ble Viscount Goderich, H.M. principal Secretary of State for the Colonies, and President of the Royal Geographical Society, by his Lordships obliged servant J. Arrowsmith. It was published by Pubd. by J. Arrowsmith, 35 Essex St., Strand in Feb. 15 1834. Scale [ca. 1:3,041,280]. Covers southeastern Australia with additions to the east of the Gulf of St. Vincent and Granite Island inserted in Encounter Bay.The image inside the map neatline is georeferenced to the surface of the earth and fit to the Asia South Lambert Conformal Conic coordinate system. All map collar and inset information is also available as part of the raster image, including any inset maps, profiles, statistical tables, directories, text, illustrations, index maps, legends, or other information associated with the principal map. This map shows features such as drainage, cities and other human settlements, territorial boundaries, shoreline features, and more. Relief shown by hachures and spot heights. Major explorations shown. Includes also notes and insets: The Colony of Western Australia ... -- [Map of Australia in Asia].This layer is part of a selection of digitally scanned and georeferenced historic maps from the Harvard Map Collection. These maps typically portray both natural and manmade features. The selection represents a range of originators, ground condition dates, scales, and map purposes.

[Map of Brown & Fullers addition to Ann Arbor, Michigan surveyed by J.F. Stratton, 1832

Oriented with north to the upper left; sheet 42 x 51 cm.

City of Ann Arbor, Washtenaw Co. Michigan surveyed and published by Henry Hart

Cadastral map showing land ownership and buildings. Includes inset of Phoenix block of subdivision of block 1 south, range 4 east. "Miller's Lith., N.Y." Hand colored; 77 x 104 cm.

City of Ann Arbor, Washtenaw County, Michigan

Map shows size city wards, township sections, lot boundaries, buildings and other cultural features, and sections of land annexed by the city.

City of Ann Arbor, Washtenaw Coty. Michigan / surveyed & published by S. Pettibone.

1 map : 115 x 191 cm.

City of Ann Arbor, Washtenaw Coty. Michigan / surveyed & published by S. Pettibone.

1 map : 115 x 191 cm.

Appletons' hand-book of American travel, western tour : embracing eighteen through routes to the west and far west, tours of the Great Lakes and rivers, and all local routes of the states of Ohio, Indiana, Illinois, Iowa, Michigan, Wisconsin, Minnesota, Missouri, Kansas, Nebraska, Colorado, Nevada, California, and Oregon, and territories of Dakota, Wyoming, Montana, Idaho, Utah, Washington, and Alaska.

Includes index.

Maps of major concentrations of poverty in standard metropolitan statistical areas of 250,000 or more population.

Cover title: Maps of poverty.

Water resources of the Detroit area, Michigan /

4 folded maps in pocket.

Plane coordinate projection tables : Michigan.

Mode of access: Internet.

Colton's common school geography : illustrated by numerous engravings and twenty-two study maps, drawn expressly for this work, and specially adapted to the wants of the class-room : to which are added two full-paged railroad maps, showing the chief routes of travel, and a complete series of twelve commercial and reference maps of the United States.

Includes A school geography of the state of Michigan, prepared by Daniel Putnam: 14 p. at end.

Southeastern Archaeological Conference

verso: Conference at Macon, Georgia, Nov. 10-11, 1939; First row sitting. James A. Ford, John Alden, Joseph R. Caldwell, Dr. Frederick S. Hulse, John Bennett, ? ?, George I. Quimby Jr., Joffre Coe. Second row standing left to right: John C. Ewers, James B. Griffin, Madeline Kneberg, Marion L. Dunlevy, Charles H. Fairbanks, J. Joe Finkelstein, Karl Schmitt Jr., Charles G. Wilder, Carl F. Miller, Ralph Brown, ? Third row: Harold F. Dahms, Andrew H. Whiteford, Charles Snow, H. Thomas Cain, ? ?, Robert Ritzenthaler, Robert Wauchope, ? ?, ? West

AN ASSESSMENT OF FLOW REGIME MAPS AND A NUMERICAL HEAT TRANSFER CORRELATION FOR THE STRATIFIED/ANNULAR REGIME OF SHEAR-DRIVEN INTERNAL CONDENSING FLOWS

Several modern-day cooling applications require the incorporation of mini/micro-channel shear-driven flow condensers. There are several design challenges that need to be overcome in order to meet those requirements. The difficulty in developing effective design tools for shear-driven flow condensers is exacerbated due to the lack of a bridge between the physics-based modelling of condensing flows and the current, popular approach based on semi-empirical heat transfer correlations. One of the primary contributors of this disconnect is a lack of understanding caused by the fact that typical heat transfer correlations eliminate the dependence of the heat transfer coefficient on the method of cooling employed on the condenser surface when it may very well not be the case. This is in direct contrast to direct physics-based modeling approaches where the thermal boundary conditions have a direct and huge impact on the heat transfer coefficient values. Typical heat transfer correlations instead introduce vapor quality as one of the variables on which the value of the heat transfer coefficient depends. This study shows how, under certain conditions, a heat transfer correlation from direct physics-based modeling can be equivalent to typical engineering heat transfer correlations without making the same apriori assumptions. Another huge factor that raises doubts on the validity of the heat-transfer correlations is the opacity associated with the application of flow regime maps for internal condensing flows. It is well known that flow regimes influence heat transfer rates strongly. However, several heat transfer correlations ignore flow regimes entirely and present a single heat transfer correlation for all flow regimes. This is believed to be inaccurate since one would expect significant differences in the heat transfer correlations for different flow regimes. Several other studies present a heat transfer correlation for a particular flow regime - however, they ignore the method by which extents of the flow regime is established. This thesis provides a definitive answer (in the context of stratified/annular flows) to: (i) whether a heat transfer correlation can always be independent of the thermal boundary condition and represented as a function of vapor quality, and (ii) whether a heat transfer correlation can be independently obtained for a flow regime without knowing the flow regime boundary (even if the flow regime boundary is represented through a separate and independent correlation). To obtain the results required to arrive at an answer to these questions, this study uses two numerical simulation tools - the approximate but highly efficient Quasi-1D simulation tool and the exact but more expensive 2D Steady Simulation tool. Using these tools and the approximate values of flow regime transitions, a deeper understanding of the current state of knowledge in flow regime maps and heat transfer correlations in shear-driven internal condensing flows is obtained. The ideas presented here can be extended for other flow regimes of shear-driven flows as well. Analogous correlations can also be obtained for internal condensers in the gravity-driven and mixed-driven configuration.